chore(firmware): stage local changes

Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com>
This commit is contained in:
L'électron rare
2026-03-11 00:12:22 +01:00
parent 61961b655c
commit d6aacd7a87
26 changed files with 1134 additions and 720 deletions
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name: CI
on:
push:
branches: [main, master]
pull_request:
permissions:
contents: read
concurrency:
group: ${{ github.workflow }}-${{ github.ref }}
cancel-in-progress: true
jobs:
platformio:
runs-on: ubuntu-latest
timeout-minutes: 20
steps:
- uses: actions/checkout@v4
- uses: actions/cache@v4
with:
path: |
~/.cache/pip
~/.platformio/.cache
key: ${{ runner.os }}-pio
- uses: actions/setup-python@v5
with:
python-version: '3.11'
- name: Install PlatformIO
run: python -m pip install --upgrade pip platformio
- name: Build
run: pio run
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.pio
.vscode/.browse.c_cpp.db*
.vscode/c_cpp_properties.json
.vscode/launch.json
.vscode/ipch
src/ConfigUser.h
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{
// See http://go.microsoft.com/fwlink/?LinkId=827846
// for the documentation about the extensions.json format
"recommendations": [
"platformio.platformio-ide"
],
"unwantedRecommendations": [
"ms-vscode.cpptools-extension-pack"
]
}
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{
"stm32-for-vscode.openOCDPath": false,
"stm32-for-vscode.armToolchainPath": false
}
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This Source Code Form is subject to the terms of the Mozilla Public License,
v. 2.0. If a copy of the MPL was not distributed with this file, You can
obtain one at https://mozilla.org/MPL/2.0/.
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# linkyToVictron # linkyToVictron OLED
Firmware ESP8266 (NodeMCU v2) qui lit la teleinfo d'un compteur Linky triphase et affiche les donnees en temps reel sur un ecran OLED SSD1306.
## Cablage
| Composant | Broche |
|-----------------|--------|
| OLED SDA | D1 |
| OLED SCL | D2 |
| Teleinfo RX | D7 |
| OLED I2C addr | 0x3C |
## Fonctionnalites
- **Auto-detection TIC** : bascule automatiquement entre mode Standard (9600 bauds) et Historique (1200 bauds)
- **Triphase** : courant, tension et puissance par phase
- **Injection solaire** : gestion des puissances negatives (SINSTI, EAIT)
- **Index** : HC, HP, injection, total en kWh
- **Affichage OLED** : 3 pages en alternance (temps reel / index energie / reseau)
- **MQTT Victron** : publication au format `Ac/*` compatible `dbus-mqtt-grid`
## Structure
```text
src/
Config.h -- Configuration par defaut (sans secrets)
ConfigUser.example.h -- Exemple de config locale
main.cpp -- Setup/loop, instanciation des objets
TeleinfoData.h -- Struct de donnees teleinfo
TeleinfoReader.h/.cpp -- Lecture serie + parsing des trames TIC
WifiManager.h/.cpp -- Connexion Wi-Fi
MqttPublisher.h/.cpp -- Publication MQTT
OledDisplay.h/.cpp -- Affichage OLED SSD1306
platformio.ini -- Configuration PlatformIO
```
## Configuration locale
Creer une configuration locale non versionnee :
```bash
cp src/ConfigUser.example.h src/ConfigUser.h
```
Puis editer `src/ConfigUser.h` avec vos identifiants Wi-Fi et MQTT.
## Compilation
```bash
pio run
```
## Upload
```bash
pio run --target upload
```
## Dependances
- [Adafruit GFX Library](https://github.com/adafruit/Adafruit-GFX-Library)
- [Adafruit SSD1306](https://github.com/adafruit/Adafruit_SSD1306)
- [LibTeleinfo](https://github.com/hallard/LibTeleinfo)
- [PubSubClient](https://github.com/knolleary/pubsubclient)
<!-- CHANTIER:AUDIT START -->
## Audit & Execution Plan (2026-03-10)
### Snapshot
- Priority: `P2`
- Tech profile: `embedded`
- Workflows: `yes`
- Tests: `yes`
- Debt markers: `0`
- Source files: `12`
### Corrections Prioritaires
- [ ] Vérifier target PlatformIO et budget mémoire
- [ ] Ajouter/fiabiliser les commandes de vérification automatiques.
- [ ] Clore les points bloquants avant optimisation avancée.
### Optimisation
- [ ] Identifier le hotspot principal et mesurer avant/après.
- [ ] Réduire la complexité des modules les plus touchés.
### Mémoire chantier
- Control plane: `/Users/electron/.codex/memories/electron_rare_chantier`
- Repo card: `/Users/electron/.codex/memories/electron_rare_chantier/REPOS/linkyToVictron_oled.md`
<!-- CHANTIER:AUDIT END -->
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#include "compteur.h"
#include <QDebug>
#include <QString>
Compteur::Compteur(QObject *parent)
: QObject(parent), serial(this), timerReadData(this),energyMeter(parent)
{
serial.setPortName("domotiqueCompteur");
serial.setBaudRate(9600);
serial.setDataBits(QSerialPort::Data7);
serial.setParity(QSerialPort::EvenParity);
retryOpenSerial.setInterval(500);
retryOpenSerial.setSingleShot(true);
timerReadData.setInterval(400);
connect(&retryOpenSerial,&QTimer::timeout,this,&Compteur::serialError);
connect(&timerReadData,&QTimer::timeout,this,&Compteur::getData);
//connect(&serial,&QSerialPort::readyRead,this,&Compteur::getData);
connect(&m_client,SIGNAL(connected()),this,SLOT(mqttConnected()));
connect(&m_client,SIGNAL(disconnected()),this,SLOT(mqttDisConnected()));
connect(&retryMqttTimer,SIGNAL(timeout()),this,SLOT(mqttReconnect()));
/* listeEtiquette.append("EASF01");
listeTopic.append("fluide/elec/hc");
listeValeur.append("");
listeNewValeur.append("");
listeDiv.append(100);
listeArrondi.append(0);
listeEtiquette.append("EASF02");
listeTopic.append("fluide/elec/hp");
listeValeur.append("");
listeNewValeur.append("");
listeDiv.append(100);
listeArrondi.append(0);
*/
listeEtiquette.append("PTEC");
listeTopic.append("fluide/elec/tarif");
listeValeur.append("");
listeNewValeur.append("");
listeDiv.append(0);
listeArrondi.append(0);
nbEtiquettes=listeEtiquette.size();
m_client.setHostname(QString("iot"));
m_client.setPort(1883);
retryMqttTimer.setInterval(100);
retryMqttTimer.start();
souscription=nullptr;
retryOpenSerial.start();
}
void Compteur::serialError()
{
disconnect(&serial,&QSerialPort::errorOccurred,this,&Compteur::serialError);
timerReadData.stop();
qDebug()<<"tentative d'ouverture de la liaison serie";
serial.close();
if (serial.open(QIODevice::ReadOnly)==false)
{
qDebug()<<"echec";
retryOpenSerial.start();
serial.close();
}
else
{
retryOpenSerial.stop();
qDebug()<<"ok";
connect(&serial,&QSerialPort::errorOccurred,this,&Compteur::serialError);
timerReadData.start();
}
}
void Compteur::getData()
{
QString line;
static bool start=false;
bool run=true;
char c='\0',pc;
char crc=0;
do
{
pc=c;
if (serial.getChar(&c))
{
if (c=='\n')
{
line.clear();
crc=0;
}
else if (c=='\r')
{
crc-=pc;
crc=(crc&0x3F)+0x20;
QStringList liste = line.split(QLatin1Char('\t'));
//qDebug()<<liste<<" "<<crc;
if (crc==liste.last().at(0))
{
//qDebug()<<"crc ok";
if (liste.at(0)=="DATE")
{
//qDebug()<<"start";
if (start==false) start=true;
else
{
if (injection==true)
{
if (iInst>0) iInst=-iInst;
pInst=-pInj;
}
else
{
if (iInst<0) iInst=-iInst;
pInst=pSout;
}
if (iInst!=iInstPrec)
{
iInstPrec=iInst;
//qDebug()<<"topic"<<"fluide/elec/iinst"<<iInst;
//mqttSend("fluide/elec/iinst",QString::number(iInst),1,true);
energyMeter.setCourant(iInst);
}
else if (pInst!=pInstPrec)
{
pInstPrec=pInst;
//qDebug()<<"topic"<<"fluide/elec/puissance"<<pInst;
mqttSend("homeassistant/sensor/teleinfoPinst/state",QString::number(pInst),1,true);
energyMeter.setPuissanceInstantanee(pInst);
}
pConso=pInst+pSolaire;
if (pConso!=pConsoPrec)
{
pConsoPrec=pConso;
mqttSend("homeassistant/sensor/teleinfoPconso/state",QString::number(pConso),1,true);
}
if (indexInj!=indexInjPrec)
{
indexInjPrec=indexInj;
mqttSend("homeassistant/sensor/teleinfoIndexInjection/state",QString::number(indexInj/10)+'.'+QString::number(indexInj%10),1,true);
energyMeter.setIndexInjection(indexInj);
}
if (indexHC!=indexHCprec)
{
indexHCprec=indexHC;
indexTotal=indexHC+indexHP;
mqttSend("homeassistant/sensor/teleinfoIndexHC/state",QString::number(indexHC/10)+'.'+QString::number(indexHC%10),1,true);
}
if (indexHP!=indexHPprec)
{
indexHPprec=indexHP;
indexTotal=indexHC+indexHP;
mqttSend("homeassistant/sensor/teleinfoIndexHP/state",QString::number(indexHP/10)+'.'+QString::number(indexHP%10),1,true);
}
if (indexTotal!=indexTotalprec)
{
indexTotalprec=indexTotal;
energyMeter.setIndexConso(indexTotal);
}
if (uInst!=uInstPrec)
{
uInstPrec=uInst;
energyMeter.setTension(uInst);
}
for(int i=0;i<nbEtiquettes;i++)
{
if (listeValeur.at(i)!=listeNewValeur.at(i))
{
listeValeur[i]=listeNewValeur.at(i);
//qDebug()<<"topic"<<listeTopic.at(i)<<listeValeur[i];
mqttSend(listeTopic[i],listeValeur[i],1,true);
}
}
if (isEnergyMeterStarted==false)
{
energyMeter.startModbus();
isEnergyMeterStarted=true;
}
}
}
else if (liste.at(0)=="IRMS1")
{
iInst=liste.at(1).toInt();
}
else if (liste.at(0)=="URMS1")
{
uInst=liste.at(1).toInt();
}
else if (liste.at(0)=="SINSTS")
{
pSout=liste.at(1).toInt();
//if (pInst==0) injection=true; else injection=false;
pSout=(pSout/50)*50;
}
else if (liste.at(0)=="SINSTI")
{
pInj=liste.at(1).toInt();
if (pInj!=0) injection=true; else injection=false;
pInj=(pInj/50)*50;
}
else if (liste.at(0)=="EAIT")
{
indexInj=liste.at(1).toLong()/100;
}
else if (liste.at(0)=="EASF01")
{
indexHC = liste.at(1).toLong()/100;
}
else if (liste.at(0)=="EASF02")
{
indexHP = liste.at(1).toLong()/100;
}
else
{
int i=listeEtiquette.indexOf(liste.at(0));
if (i>=0)
{
listeNewValeur[i] = liste.at(1);
int div=listeDiv.at(i);
if (div!=0) listeNewValeur[i]=QString::number((listeNewValeur[i].toInt()/div));
int arrondi=listeArrondi.at(i);
if (arrondi!=0) listeNewValeur[i]=QString::number(( ((listeNewValeur[i].toInt())/arrondi)*arrondi));
}
}
}
}
else
{
line.append(c);
crc+=c;
}
if (serial.bytesAvailable()<20) run=false;
}
else
{
run=false;
}
}while(run);
}
void Compteur::addHomeAssistant(QString name, QString type, QString unit)
{
QString payload;
payload.append("{");
if (type!="") payload.append("\"device_class\": \""+type+"\",");
payload.append("\"state_topic\": \"homeassistant/sensor/teleinfo"+name+"/state\",");
payload.append("\"name\": \"teleinfo"+name+"\",");
payload.append("\"unique_id\": \"teleinfo"+name+"\",");
if (unit!="") payload.append("\"unit_of_measurement\": \""+unit+"\"}");
emit mqttSend("homeassistant/sensor/teleinfo"+name+"/config",
payload,
1,1);
}
void Compteur::mqttConnected()
{
isConnected = true;
retryMqttTimer.stop();
souscription=m_client.subscribe(QMqttTopicFilter("fluide/elec/pSolaire"),1);
connect(souscription,&QMqttSubscription::messageReceived,
this,&Compteur::newPuissanceSolaire);
addHomeAssistant("Pinst","power","W");
addHomeAssistant("Pconso","power","W");
addHomeAssistant("IndexHC","energy","kWh");
addHomeAssistant("IndexHP","energy","kWh");
addHomeAssistant("IndexInjection","energy","kWh");
addHomeAssistant("IndexHP","energy","kWh");
addHomeAssistant("IndexHC","energy","kWh");
qDebug()<<"connect to Mosquitto !";
}
void Compteur::mqttDisConnected()
{
isConnected = false;
if (souscription!=nullptr)
{
disconnect(souscription,&QMqttSubscription::messageReceived,
this,&Compteur::newPuissanceSolaire);
delete souscription;
souscription=nullptr;
}
qDebug()<<"connection au serveur perdue !!!";
retryMqttTimer.start();
}
void Compteur::mqttReconnect()
{
qDebug()<<"try to (re)connect !";
m_client.connectToHost();
}
void Compteur::mqttSend(QString topic, QString message, int qos, bool retain)
{
if (isConnected)
{
m_client.publish(topic, message.toLatin1(),quint8(qos),retain);
}
}
void Compteur::newPuissanceSolaire(QMqttMessage message)
{
//qDebug()<<"new message : "<<message.payload();
bool isInt;
int val=message.payload().toInt(&isInt);
if (isInt)
{
//qDebug()<<val;
pSolaire=val;
}
}
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#ifndef COMPTEUR_H
#define COMPTEUR_H
#include <QObject>
#include <QSerialPort>
#include <QTimer>
#include <QtMqtt/QMqttClient>
#include <QStringList>
#include "qem24energymeter.h"
class Compteur : public QObject
{
Q_OBJECT
public:
explicit Compteur(QObject *parent = nullptr);
private:
QSerialPort serial;
QTimer retryOpenSerial;
QTimer timerReadData;
bool isConnected;
QMqttClient m_client;
QTimer retryMqttTimer;
QMqttSubscription * souscription;
QStringList listeEtiquette;
QStringList listeValeur;
QStringList listeNewValeur;
QStringList listeTopic;
QList<int> listeDiv;
QList<int> listeArrondi;
QEM24EnergyMeter energyMeter;
bool isEnergyMeterStarted=false;
int nbEtiquettes;
int pSout;
int pInj;
int pInst;
int pInstPrec=-9999;
int pConso;
int pConsoPrec=-9999;
int iInst;
int iInstPrec=-9999;
int uInst=230;
int uInstPrec=0;
long indexInj;
long indexInjPrec=-9999;
int pSolaire=0;
bool injection;
int64_t indexHC=0;
int64_t indexHCprec=0;
int64_t indexHP=0;
int64_t indexHPprec=0;
int64_t indexTotal=0;
int64_t indexTotalprec=0;
signals:
public slots:
void serialError();
void getData();
void mqttConnected();
void mqttDisConnected();
void mqttReconnect();
void mqttSend(QString topic, QString message,int qos,bool retain);
void newPuissanceSolaire(QMqttMessage message);
void addHomeAssistant(QString name, QString type, QString unit);
};
#endif // COMPTEUR_H
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#include <QCoreApplication>
#include "compteur.h"
int main(int argc, char *argv[])
{
QCoreApplication a(argc, argv);
Compteur cpt(&a);
return a.exec();
}
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[env:nodemcuv2]
platform = espressif8266
board = nodemcuv2
framework = arduino
monitor_speed = 9600
lib_deps =
adafruit/Adafruit GFX Library@^1.12.1
adafruit/Adafruit SSD1306@^2.5.15
https://github.com/hallard/LibTeleinfo.git
knolleary/PubSubClient@^2.8
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#include "qem24energymeter.h"
#include <QDebug>
QEM24EnergyMeter::QEM24EnergyMeter(QObject *parent)
: QObject{parent}
{
// reg.insert(QModbusDataUnit::Coils, { QModbusDataUnit::Coils, 0, 10 });
// reg.insert(QModbusDataUnit::DiscreteInputs, { QModbusDataUnit::DiscreteInputs, 0, 10 });
reg.insert(QModbusDataUnit::InputRegisters, { QModbusDataUnit::InputRegisters, 0, 0xA101 });
reg.insert(QModbusDataUnit::HoldingRegisters, { QModbusDataUnit::HoldingRegisters, 0, 0xA101 });
modbusDevice.setMap(reg);
// 000Bh Carlo Gavazzi identification code 1648
setRegistre(0xB,1648);
setRegistre( 0x0302, 0x101E ); // Version and revision code of measurement module
setRegistre( 0x0304, 0x101E ); // Version and revision code of communication module
setRegistre( 0x1002, 3 ); // Measuring system (3="1Ph", 4=“3P”)
//setRegistre( 0x1003, 10 ); // current transformer ratio)
//setRegistre( 0x1005, 10 ); // tension transformer ratio
//setRegistre( 0x1010, 15 ); // interval Time
//setRegistre( 0x1109, 1 ); // filter coeff
setRegistre(0x2100,192);
setRegistre(0x2101,168);
setRegistre(0x2102,0);
setRegistre(0x2103,7);
setRegistre(0x2104,255);
setRegistre(0x2105,255);
setRegistre(0x2106,255);
setRegistre(0x2107,0);
setRegistre(0x2108,192);
setRegistre(0x2109,168);
setRegistre(0x210A,0);
setRegistre(0x210B,1);
setRegistre(0x210C,502);
setRegistre(0x2120,192);
setRegistre(0x2121,168);
setRegistre(0x2122,0);
setRegistre(0x2123,7);
setRegistre(0x2124,255);
setRegistre(0x2125,255);
setRegistre(0x2126,255);
setRegistre(0x2127,0);
setRegistre(0x2128,192);
setRegistre(0x2129,168);
setRegistre(0x212A,0);
setRegistre(0x212B,1);
setRegistre( 0x0032, 0 ); // Phase sequence
setRegistre( 0x0033, 500 ); // Frequence
setRegistre( 0xA100, 3 ); //Front selector status lock
setRegistre( 0x5000, 0x4c69 ); //Serial Digit 1 & 2
setRegistre( 0x5001, 0x6e6b ); //Serial Digit 3 & 4
setRegistre( 0x5002, 0x7930 ); //Serial Digit 5 & 6
setRegistre( 0x5003, 0x3030 ); //Serial Digit 7 & 8
setRegistre( 0x5004, 0x3030 ); //Serial Digit 9 & 10
setRegistre( 0x5005, 0x3030 ); //Serial Digit 11 & 12
setRegistre( 0x5006, 0x3100 ); //Serial Digit 13
setRegistre( 0xA000, 7 ); //Application : Doit être égal à 7 pour Victron
//Infos triphasées non utilisées:
setRegistre( 0x0001, 0 );
setRegistre( 0x0002, 0 ); // V-L3
setRegistre( 0x0003, 0 );
setRegistre( 0x0004, 0 ); // V-L2
setRegistre( 0x0005, 0 );
setRegistre( 0x000C, 100 ); // A-L1
setRegistre( 0x000D, 0 );
setRegistre( 0x000E, 0 ); // A-L1
setRegistre( 0x000F, 0 );
setRegistre( 0x0010, 0 ); // A-L2
setRegistre( 0x0011, 0 );
setRegistre( 0x0013, 0 );
setRegistre( 0x0016, 0 ); // W-L2
setRegistre( 0x0017, 0 );
setRegistre( 0x0019, 0 );
setRegistre( 0x0042, 0 ); // kWh-L2
setRegistre( 0x0043, 0 );
setRegistre( 0x0028, 1000 ); // W-Total
setRegistre( 0x0029, 0 );
setRegistre( 0x002A, 1000 ); // VA-Total
setRegistre( 0x002B, 0 );
setRegistre( 0x0034, 100); // kWh +
setRegistre( 0x0035, 0 );
//Initialisation des valeurs pertinentes pour le monophasé
setRegistre( 0x0040, 1 ); // kWh-L1
setRegistre( 0x0041, 0 );
setRegistre( 0x0044, 0 ); // kWh-L2
setRegistre( 0x0045, 0 );
setRegistre( 0x004E, 0 ); // kWh-
setRegistre( 0x004F, 0 );
setRegistre( 0x0046, 0 ); // kWh+ T1
setRegistre( 0x0047, 0 );
setRegistre( 0x0048, 0 ); // kWh+ T2
setRegistre( 0x0049, 0 );
setPuissanceInstantanee(0);
setTension(0);
modbusDevice.setConnectionParameter(QModbusDevice::NetworkPortParameter, 502);
modbusDevice.setConnectionParameter(QModbusDevice::NetworkAddressParameter, "192.168.0.7");
modbusDevice.setServerAddress(1);
modbusDevice.setValue(QModbusServer::ListenOnlyMode, 0);
//modbusDevice.setValue(QModbusServer::DeviceBusy, 0xfff);
//connect(&modbusDevice, &QModbusTcpServer::dataWritten,
// this, &QEM24EnergyMeter::updateWidgets);
connect(&modbusDevice, &QModbusTcpServer::stateChanged,
this, &QEM24EnergyMeter::onStateChanged);
connect(&modbusDevice, &QModbusTcpServer::errorOccurred,
this, &QEM24EnergyMeter::handleDeviceError);
connect(&modbusDevice, &QModbusTcpServer::modbusClientDisconnected,
this, &QEM24EnergyMeter::clientDisconnected);
modbusDevice.setData(QModbusDataUnit::Coils, 0, 1);
modbusDevice.setData(QModbusDataUnit::Coils, 1, 2);
}
void QEM24EnergyMeter::setRegistre(quint16 address, quint16 value)
{
modbusDevice.setData(QModbusDataUnit::HoldingRegisters,address,value);
modbusDevice.setData(QModbusDataUnit::InputRegisters,address,value);
}
void QEM24EnergyMeter::setRegistre32(quint16 address, int value)
{
{
qint16 v;
v=(value&0xFFFF);
modbusDevice.setData(QModbusDataUnit::HoldingRegisters,address,v);
modbusDevice.setData(QModbusDataUnit::InputRegisters,address,v);
}
{
qint16 v;
v=((value>>16)&0xFFFF);
modbusDevice.setData(QModbusDataUnit::HoldingRegisters,address+1,v);
modbusDevice.setData(QModbusDataUnit::InputRegisters,address+1,v);
}
}
void QEM24EnergyMeter::onStateChanged(int state)
{
qDebug()<<"state :"<<state;
}
void QEM24EnergyMeter::updateWidgets(QModbusDataUnit::RegisterType table, int address, int size)
{
quint16 value;
modbusDevice.data(QModbusDataUnit::HoldingRegisters,address,&value);
qDebug()<<"updateWidgets :"<<address<<" "<<size<<" "<<value;
}
void QEM24EnergyMeter::handleDeviceError(QModbusDevice::Error newError)
{
qDebug()<<"error :"<<newError;
}
void QEM24EnergyMeter::clientDisconnected(QTcpSocket *modbusClient)
{
qDebug()<<"deconnexion : "<<modbusClient->peerAddress() ;
}
void QEM24EnergyMeter::setPuissanceInstantanee(int p)
{
setRegistre32(0x12,p*10); // puissance active L1
setRegistre32(0x28,p*10); // puissance totale
}
void QEM24EnergyMeter::setTension(int u)
{
setRegistre( 0x0000, u*10 ); // V-L1
}
void QEM24EnergyMeter::setCourant(int i)
{
setRegistre32( 0x000C, i*1000 ); // I-L1
}
void QEM24EnergyMeter::setIndexConso(long index)
{
setRegistre32( 0x0034, index ); //
setRegistre32( 0x0040, index ); //
}
void QEM24EnergyMeter::setIndexInjection(long index)
{
setRegistre32( 0x004E, index ); //
}
void QEM24EnergyMeter::startModbus()
{
if (modbusDevice.state()!=QModbusDevice::ConnectedState) modbusDevice.connectDevice();
}
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#ifndef QEM24ENERGYMETER_H
#define QEM24ENERGYMETER_H
#include <QObject>
#include <QModbusTcpServer>
#include <QTcpSocket>
#include <QHostAddress>
class QEM24EnergyMeter : public QObject
{
Q_OBJECT
public:
explicit QEM24EnergyMeter(QObject *parent = nullptr);
private:
QModbusTcpServer modbusDevice;
QModbusDataUnitMap reg;
void setRegistre(quint16 address, quint16 value);
void setRegistre32(quint16 address, int value);
private Q_SLOTS:
void onStateChanged(int state);
void updateWidgets(QModbusDataUnit::RegisterType table, int address, int size);
void handleDeviceError(QModbusDevice::Error newError);
void clientDisconnected(QTcpSocket *modbusClient);
public :
void setPuissanceInstantanee(int p);
void setTension(int u);
void setCourant(int i);
void setIndexConso(long index);
void setIndexInjection(long index);
void startModbus();
signals:
};
#endif // QEM24ENERGYMETER_H
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#pragma once
#ifdef __has_include
#if __has_include("ConfigUser.h")
#include "ConfigUser.h"
#endif
#endif
// WiFi
#ifndef WIFI_SSID
#define WIFI_SSID ""
#endif
#ifndef WIFI_PASSWORD
#define WIFI_PASSWORD ""
#endif
// MQTT Broker
#ifndef MQTT_HOST
#define MQTT_HOST "192.168.0.50"
#endif
#ifndef MQTT_PORT
#define MQTT_PORT 1883
#endif
#ifndef MQTT_USER
#define MQTT_USER ""
#endif
#ifndef MQTT_PASS
#define MQTT_PASS ""
#endif
// MQTT Topics - format EM24 pour Victron (dbus-mqtt-grid)
#ifndef MQTT_TOPIC_PREFIX
#define MQTT_TOPIC_PREFIX "linky"
#endif
// Intervalle de publication MQTT (ms)
#ifndef MQTT_PUBLISH_INTERVAL_MS
#define MQTT_PUBLISH_INTERVAL_MS 2000
#endif
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#pragma once
// Copiez ce fichier en src/ConfigUser.h (ignore par git) et adaptez les valeurs.
#define WIFI_SSID "MonWifi"
#define WIFI_PASSWORD "MonMotDePasse"
// IP ou hostname du broker MQTT.
#define MQTT_HOST "192.168.0.50"
#define MQTT_PORT 1883
// Laisser vide si pas d'authentification.
#define MQTT_USER ""
#define MQTT_PASS ""
#define MQTT_TOPIC_PREFIX "linky"
#define MQTT_PUBLISH_INTERVAL_MS 2000
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#include "MqttPublisher.h"
#include <Arduino.h>
#include <stdio.h>
#include <string.h>
MqttPublisher::MqttPublisher(const char* fallbackHost, uint16_t fallbackPort,
const char* user, const char* pass,
const char* topicPrefix, uint32_t publishIntervalMs)
: fallbackHost_(fallbackHost),
fallbackPort_(fallbackPort),
user_(user),
pass_(pass),
publishIntervalMs_(publishIntervalMs) {
strncpy(topicPrefix_, topicPrefix, sizeof(topicPrefix_) - 1);
topicPrefix_[sizeof(topicPrefix_) - 1] = '\0';
}
void MqttPublisher::begin() {
mqtt_.setClient(wifiClient_);
snprintf(clientId_, sizeof(clientId_), "linky-em24-%06lX",
static_cast<unsigned long>(ESP.getChipId()));
}
bool MqttPublisher::discoverBroker() {
const uint32_t now = millis();
if (now - lastDiscoveryMs_ < kDiscoveryIntervalMs) return brokerDiscovered_;
lastDiscoveryMs_ = now;
if (!mdnsStarted_) {
if (!MDNS.begin(clientId_)) return false;
mdnsStarted_ = true;
}
MDNS.update();
int n = MDNS.queryService("mqtt", "tcp");
if (n > 0) {
brokerIP_ = MDNS.IP(0);
brokerPort_ = MDNS.port(0);
brokerDiscovered_ = true;
mqtt_.setServer(brokerIP_, brokerPort_);
return true;
}
// Fallback sur l'hote configure (IP ou DNS)
if (!brokerDiscovered_) {
brokerPort_ = fallbackPort_;
if (brokerIP_.fromString(fallbackHost_) || WiFi.hostByName(fallbackHost_, brokerIP_)) {
mqtt_.setServer(brokerIP_, brokerPort_);
} else {
brokerIP_ = IPAddress(0, 0, 0, 0);
mqtt_.setServer(fallbackHost_, brokerPort_);
}
brokerDiscovered_ = true;
}
return brokerDiscovered_;
}
void MqttPublisher::update(bool wifiConnected, const TeleinfoData& data) {
if (!wifiConnected) return;
if (!brokerDiscovered_) {
discoverBroker();
if (!brokerDiscovered_) return;
}
if (!mqtt_.connected()) {
const uint32_t now = millis();
if (now - lastReconnectMs_ < kReconnectIntervalMs) return;
lastReconnectMs_ = now;
// Re-tenter la decouverte si connexion echoue
discoverBroker();
reconnect();
if (!mqtt_.connected()) return;
}
mqtt_.loop();
if (!data.valid) return;
const uint32_t now = millis();
if (now - lastPublishMs_ < publishIntervalMs_) return;
lastPublishMs_ = now;
publishGrid(data);
}
void MqttPublisher::reconnect() {
if (user_[0] != '\0') {
mqtt_.connect(clientId_, user_, pass_);
} else {
mqtt_.connect(clientId_);
}
}
void MqttPublisher::publish(const char* suffix, const char* value) {
char topic[128];
snprintf(topic, sizeof(topic), "%s/%s", topicPrefix_, suffix);
mqtt_.publish(topic, value, true);
}
void MqttPublisher::publishInt(const char* suffix, int value) {
char buf[16];
snprintf(buf, sizeof(buf), "%d", value);
publish(suffix, buf);
}
void MqttPublisher::publishFloat(const char* suffix, float value) {
char buf[16];
dtostrf(value, 1, 1, buf);
publish(suffix, buf);
}
void MqttPublisher::publishGrid(const TeleinfoData& data) {
publishInt("Ac/Power", data.totalPowerInst);
const char* phaseNames[] = {"Ac/L1", "Ac/L2", "Ac/L3"};
for (size_t i = 0; i < 3; ++i) {
char suffix[32];
snprintf(suffix, sizeof(suffix), "%s/Voltage", phaseNames[i]);
publishInt(suffix, data.voltage[i]);
snprintf(suffix, sizeof(suffix), "%s/Current", phaseNames[i]);
publishInt(suffix, data.current[i]);
snprintf(suffix, sizeof(suffix), "%s/Power", phaseNames[i]);
publishInt(suffix, data.phasePowerInst[i]);
}
const float energyForward = static_cast<float>(data.indexHC + data.indexHP) / 10.0f;
const float energyReverse = static_cast<float>(data.indexInj) / 10.0f;
publishFloat("Ac/Energy/Forward", energyForward);
publishFloat("Ac/Energy/Reverse", energyReverse);
}
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#pragma once
#include <ESP8266WiFi.h>
#include <ESP8266mDNS.h>
#include <PubSubClient.h>
#include "TeleinfoData.h"
class MqttPublisher {
public:
MqttPublisher(const char* fallbackHost, uint16_t fallbackPort,
const char* user, const char* pass,
const char* topicPrefix, uint32_t publishIntervalMs);
void begin();
void update(bool wifiConnected, const TeleinfoData& data);
bool isConnected() { return mqtt_.connected(); }
bool brokerDiscovered() const { return brokerDiscovered_; }
IPAddress brokerIP() const { return brokerIP_; }
uint16_t brokerPort() const { return brokerPort_; }
private:
bool discoverBroker();
void reconnect();
void publish(const char* suffix, const char* value);
void publishInt(const char* suffix, int value);
void publishFloat(const char* suffix, float value);
void publishGrid(const TeleinfoData& data);
WiFiClient wifiClient_;
PubSubClient mqtt_;
const char* fallbackHost_;
uint16_t fallbackPort_;
const char* user_;
const char* pass_;
char topicPrefix_[64];
char clientId_[32] = "linky-em24";
uint32_t publishIntervalMs_;
bool brokerDiscovered_ = false;
bool mdnsStarted_ = false;
IPAddress brokerIP_;
uint16_t brokerPort_ = 1883;
uint32_t lastPublishMs_ = 0;
uint32_t lastReconnectMs_ = 0;
uint32_t lastDiscoveryMs_ = 0;
static constexpr uint32_t kReconnectIntervalMs = 5000;
static constexpr uint32_t kDiscoveryIntervalMs = 15000;
};
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#include "OledDisplay.h"
#include <Arduino.h>
#include <Wire.h>
#include <stdio.h>
OledDisplay::OledDisplay(uint8_t sda, uint8_t scl)
: sda_(sda), scl_(scl), display_(kWidth, kHeight, &Wire, -1) {}
bool OledDisplay::begin() {
Wire.begin(sda_, scl_);
Wire.setClock(400000);
return display_.begin(SSD1306_SWITCHCAPVCC, kI2cAddress);
}
void OledDisplay::showInit() {
display_.clearDisplay();
display_.setTextSize(1);
display_.setTextColor(SSD1306_WHITE);
display_.setCursor(0, 0);
display_.println(F("Init Linky TRI"));
display_.println(F("SDA:D1 SCL:D2"));
display_.println(F("TIC RX:D7"));
display_.println(F("LibTeleinfo+MQTT"));
display_.display();
}
void OledDisplay::drawStatusBar(const ConnStatus& conn) {
// Derniere ligne (y=56) : barre de statut WiFi/MQTT
char bar[22];
if (!conn.wifiConnected) {
snprintf(bar, sizeof(bar), "WiFi:-- MQTT:--");
} else if (!conn.mqttConnected) {
snprintf(bar, sizeof(bar), "WiFi:%ddB MQTT:--", conn.rssi);
} else {
snprintf(bar, sizeof(bar), "WiFi:%ddB MQTT:OK", conn.rssi);
}
display_.setCursor(0, 56);
display_.print(bar);
}
void OledDisplay::update(const TeleinfoData& data, TeleinfoProtocol protocol,
long baudrate, const char* modeLabel, bool autoBaud,
const ConnStatus& conn) {
const uint32_t now = millis();
if (now - lastPageSwitchMs_ >= kPageSwitchMs) {
lastPageSwitchMs_ = now;
currentPage_ = (currentPage_ + 1) % kPageCount;
}
if (now - lastRefreshMs_ < kRefreshMs) return;
lastRefreshMs_ = now;
if (!data.valid) {
drawWaiting(baudrate, modeLabel, autoBaud, conn);
return;
}
switch (currentPage_) {
case 0: drawRealtime(data, protocol, baudrate, conn); break;
case 1: drawEnergy(data); break;
case 2: // Page statut connexion
display_.clearDisplay();
display_.setTextSize(1);
display_.setTextColor(SSD1306_WHITE);
display_.setCursor(0, 0);
display_.println(F("Linky TRI Network"));
{
char line[40];
snprintf(line, sizeof(line), "WiFi: %s", conn.wifiConnected ? "OK" : "...");
display_.println(line);
if (conn.wifiConnected) {
snprintf(line, sizeof(line), "IP:%s", WiFi.localIP().toString().c_str());
display_.println(line);
snprintf(line, sizeof(line), "RSSI: %d dBm", conn.rssi);
display_.println(line);
} else {
display_.println(F("IP: --"));
display_.println(F("RSSI: --"));
}
snprintf(line, sizeof(line), "MQTT: %s", conn.mqttConnected ? "OK" : "...");
display_.println(line);
if (conn.mqttConnected) {
snprintf(line, sizeof(line), "Broker:%s", conn.brokerIP.toString().c_str());
display_.println(line);
}
}
display_.display();
break;
}
}
void OledDisplay::drawWaiting(long baudrate, const char* modeLabel,
bool autoBaud, const ConnStatus& conn) {
display_.clearDisplay();
display_.setTextSize(1);
display_.setTextColor(SSD1306_WHITE);
display_.setCursor(0, 0);
display_.println(F("Linky TRI OLED"));
display_.println(F("Attente trame..."));
display_.print(F("Baud: "));
display_.println(baudrate);
display_.print(F("Mode: "));
display_.println(modeLabel);
display_.println(autoBaud ? F("Auto 9600/1200 ON") : F("Auto 9600/1200 OFF"));
{
char line[22];
snprintf(line, sizeof(line), "WiFi:%s MQTT:%s",
conn.wifiConnected ? "OK" : "--",
conn.mqttConnected ? "OK" : "--");
display_.println(line);
}
display_.display();
}
void OledDisplay::drawRealtime(const TeleinfoData& data,
TeleinfoProtocol protocol, long baudrate,
const ConnStatus& conn) {
char line[40];
display_.clearDisplay();
display_.setTextSize(1);
display_.setTextColor(SSD1306_WHITE);
display_.setCursor(0, 0);
snprintf(line, sizeof(line), "PT:%6dW T:%s", data.totalPowerInst, data.tarif);
display_.println(line);
for (size_t i = 0; i < 3; ++i) {
snprintf(line, sizeof(line), "L%u U%3d I%3d P%5d",
static_cast<unsigned int>(i + 1),
data.voltage[i], data.current[i], data.phasePowerInst[i]);
display_.println(line);
}
snprintf(line, sizeof(line), "B%ld %s", baudrate, protocolStr(protocol));
display_.println(line);
display_.println();
drawStatusBar(conn);
display_.display();
}
void OledDisplay::drawEnergy(const TeleinfoData& data) {
char hcText[24], hpText[24], injText[24], totalText[24], line[40];
formatTenthKwh(data.indexHC, hcText, sizeof(hcText));
formatTenthKwh(data.indexHP, hpText, sizeof(hpText));
formatTenthKwh(data.indexInj, injText, sizeof(injText));
formatTenthKwh(data.indexHC + data.indexHP, totalText, sizeof(totalText));
display_.clearDisplay();
display_.setTextSize(1);
display_.setTextColor(SSD1306_WHITE);
display_.setCursor(0, 0);
display_.println(F("Linky TRI Indexes"));
snprintf(line, sizeof(line), "HC : %s kWh", hcText);
display_.println(line);
snprintf(line, sizeof(line), "HP : %s kWh", hpText);
display_.println(line);
snprintf(line, sizeof(line), "INJ: %s kWh", injText);
display_.println(line);
snprintf(line, sizeof(line), "TOT: %s kWh", totalText);
display_.println(line);
snprintf(line, sizeof(line), "Tarif: %s", data.tarif);
display_.println(line);
display_.display();
}
void OledDisplay::formatTenthKwh(int64_t value, char* out, size_t outSize) {
const bool negative = value < 0;
const uint64_t absVal = negative ? static_cast<uint64_t>(-value)
: static_cast<uint64_t>(value);
const unsigned long long whole = static_cast<unsigned long long>(absVal / 10ULL);
const unsigned int decimal = static_cast<unsigned int>(absVal % 10ULL);
snprintf(out, outSize, "%s%llu.%u", negative ? "-" : "", whole, decimal);
}
const char* OledDisplay::protocolStr(TeleinfoProtocol p) {
switch (p) {
case TeleinfoProtocol::Standard: return "STD";
case TeleinfoProtocol::Historical: return "HIS";
default: return "UNK";
}
}
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#pragma once
#include <Adafruit_SSD1306.h>
#include <ESP8266WiFi.h>
#include "TeleinfoData.h"
struct ConnStatus {
bool wifiConnected;
bool mqttConnected;
int32_t rssi;
IPAddress brokerIP;
};
class OledDisplay {
public:
static constexpr uint8_t kWidth = 128;
static constexpr uint8_t kHeight = 64;
static constexpr uint8_t kI2cAddress = 0x3C;
static constexpr uint32_t kRefreshMs = 500;
static constexpr uint32_t kPageSwitchMs = 4000;
static constexpr uint8_t kPageCount = 3;
OledDisplay(uint8_t sda, uint8_t scl);
bool begin();
void showInit();
void update(const TeleinfoData& data, TeleinfoProtocol protocol,
long baudrate, const char* modeLabel, bool autoBaud,
const ConnStatus& conn);
private:
void drawWaiting(long baudrate, const char* modeLabel, bool autoBaud,
const ConnStatus& conn);
void drawRealtime(const TeleinfoData& data, TeleinfoProtocol protocol,
long baudrate, const ConnStatus& conn);
void drawEnergy(const TeleinfoData& data);
void drawStatusBar(const ConnStatus& conn);
static void formatTenthKwh(int64_t value, char* out, size_t outSize);
static const char* protocolStr(TeleinfoProtocol p);
uint8_t sda_;
uint8_t scl_;
Adafruit_SSD1306 display_;
uint32_t lastRefreshMs_ = 0;
uint32_t lastPageSwitchMs_ = 0;
uint8_t currentPage_ = 0;
};
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#pragma once
#include <stdint.h>
enum class TeleinfoProtocol : uint8_t {
Unknown,
Standard,
Historical,
};
struct TeleinfoData {
int current[3] = {0, 0, 0};
int voltage[3] = {230, 230, 230};
int phasePowerOut[3] = {0, 0, 0};
int phasePowerIn[3] = {0, 0, 0};
bool hasPowerOutPhase[3] = {false, false, false};
bool hasPowerInPhase[3] = {false, false, false};
int totalPowerOut = -1;
int totalPowerIn = -1;
int totalPowerApparent = -1;
int phasePowerInst[3] = {0, 0, 0};
int totalPowerInst = 0;
int64_t indexHC = 0;
int64_t indexHP = 0;
int64_t indexInj = 0;
bool valid = false;
char tarif[16] = "--";
};
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#include "TeleinfoReader.h"
#include <Arduino.h>
#include <stdlib.h>
#include <string.h>
TeleinfoReader* TeleinfoReader::instance_ = nullptr;
constexpr TeleinfoReader::ModeConfig TeleinfoReader::kModes[];
TeleinfoReader::TeleinfoReader(uint8_t rxPin) : rxPin_(rxPin) {
instance_ = this;
}
void TeleinfoReader::begin() {
tinfo_.attachNewFrame(onNewFrame);
tinfo_.attachUpdatedFrame(onUpdatedFrame);
beginMode(0);
}
void TeleinfoReader::update() {
while (serial_.available() > 0) {
tinfo_.process(static_cast<char>(serial_.read()));
}
maybeSwitchMode();
}
const char* TeleinfoReader::protocolLabel() const {
switch (protocol_) {
case TeleinfoProtocol::Standard:
return "STD";
case TeleinfoProtocol::Historical:
return "HIS";
default:
return "UNK";
}
}
void TeleinfoReader::beginMode(size_t modeIndex) {
modeIndex_ = modeIndex % kModeCount;
serial_.begin(kModes[modeIndex_].baudrate, SWSERIAL_7E1, rxPin_, -1, false);
while (serial_.available() > 0) {
serial_.read();
}
tinfo_.init(kModes[modeIndex_].mode);
protocol_ = (kModes[modeIndex_].mode == TINFO_MODE_STANDARD)
? TeleinfoProtocol::Standard
: TeleinfoProtocol::Historical;
data_.valid = false;
modeStartedMs_ = millis();
lastValidFrameMs_ = modeStartedMs_;
}
void TeleinfoReader::maybeSwitchMode() {
if (!autoBaud_) return;
const uint32_t now = millis();
if ((now - modeStartedMs_) < kModeSwitchTimeoutMs) return;
if ((now - lastValidFrameMs_) < kModeSwitchTimeoutMs) return;
beginMode((modeIndex_ + 1) % kModeCount);
}
int TeleinfoReader::roundTo50(int value) {
if (value >= 0) return (value / 50) * 50;
return -(((-value) / 50) * 50);
}
const char* TeleinfoReader::findLabelValue(ValueList* root, const char* label) {
if (!root || !label) return nullptr;
ValueList* node = root;
while (node->next) {
node = node->next;
if (!node->name || !node->value) continue;
if (strcmp(node->name, label) == 0) return node->value;
}
return nullptr;
}
bool TeleinfoReader::readLabelInt(ValueList* root, const char* label, int& out) {
const char* v = findLabelValue(root, label);
if (!v || *v == '\0') return false;
out = atoi(v);
return true;
}
bool TeleinfoReader::readLabelInt64(ValueList* root, const char* label, int64_t& out) {
const char* v = findLabelValue(root, label);
if (!v || *v == '\0') return false;
out = atoll(v);
return true;
}
void TeleinfoReader::updateProtocol(ValueList* list) {
if (findLabelValue(list, "DATE")) {
protocol_ = TeleinfoProtocol::Standard;
return;
}
if (findLabelValue(list, "ADCO")) {
protocol_ = TeleinfoProtocol::Historical;
}
}
void TeleinfoReader::parseFrame(ValueList* list) {
if (!list) return;
TeleinfoData d = data_;
d.valid = true;
const char* tarif = findLabelValue(list, "PTEC");
if (!tarif) tarif = findLabelValue(list, "NTARF");
if (tarif) {
strncpy(d.tarif, tarif, sizeof(d.tarif) - 1);
d.tarif[sizeof(d.tarif) - 1] = '\0';
}
int v = 0;
if (!readLabelInt(list, "IRMS1", v) && !readLabelInt(list, "IINST1", v))
readLabelInt(list, "IINST", v);
d.current[0] = v;
if (readLabelInt(list, "IRMS2", v) || readLabelInt(list, "IINST2", v))
d.current[1] = v;
if (readLabelInt(list, "IRMS3", v) || readLabelInt(list, "IINST3", v))
d.current[2] = v;
if (!readLabelInt(list, "URMS1", v)) readLabelInt(list, "URMS", v);
if (v > 0) d.voltage[0] = v;
if (readLabelInt(list, "URMS2", v) && v > 0) d.voltage[1] = v;
if (readLabelInt(list, "URMS3", v) && v > 0) d.voltage[2] = v;
d.totalPowerOut = -1;
d.totalPowerIn = -1;
d.totalPowerApparent = -1;
for (size_t i = 0; i < 3; ++i) {
d.hasPowerOutPhase[i] = false;
d.hasPowerInPhase[i] = false;
}
if (readLabelInt(list, "SINSTS", v)) d.totalPowerOut = v;
if (readLabelInt(list, "SINSTI", v)) d.totalPowerIn = v;
if (readLabelInt(list, "PAPP", v)) d.totalPowerApparent = v;
const char* outLabels[] = {"SINSTS1", "SINSTS2", "SINSTS3"};
const char* inLabels[] = {"SINSTI1", "SINSTI2", "SINSTI3"};
for (size_t i = 0; i < 3; ++i) {
if (readLabelInt(list, outLabels[i], v)) {
d.phasePowerOut[i] = v;
d.hasPowerOutPhase[i] = true;
}
if (readLabelInt(list, inLabels[i], v)) {
d.phasePowerIn[i] = v;
d.hasPowerInPhase[i] = true;
}
}
int64_t lv = 0;
bool baseRead = false;
if (readLabelInt64(list, "BASE", lv)) {
d.indexHC = lv / 100;
d.indexHP = 0;
baseRead = true;
}
if (readLabelInt64(list, "EASF01", lv) || readLabelInt64(list, "HCHC", lv))
d.indexHC = lv / 100;
if (!baseRead && (readLabelInt64(list, "EASF02", lv) || readLabelInt64(list, "HCHP", lv)))
d.indexHP = lv / 100;
if (readLabelInt64(list, "EAIT", lv))
d.indexInj = lv / 100;
recomputeDerived(d);
updateProtocol(list);
data_ = d;
lastValidFrameMs_ = millis();
}
void TeleinfoReader::recomputeDerived(TeleinfoData& d) {
int sumOutPhase = 0, sumInPhase = 0;
bool hasOutPhase = false, hasInPhase = false;
for (size_t i = 0; i < 3; ++i) {
if (d.hasPowerOutPhase[i]) { hasOutPhase = true; sumOutPhase += d.phasePowerOut[i]; }
if (d.hasPowerInPhase[i]) { hasInPhase = true; sumInPhase += d.phasePowerIn[i]; }
}
int totalOut = d.totalPowerOut >= 0 ? d.totalPowerOut : (hasOutPhase ? sumOutPhase : -1);
int totalIn = d.totalPowerIn >= 0 ? d.totalPowerIn : (hasInPhase ? sumInPhase : -1);
if (totalOut < 0 && d.totalPowerApparent >= 0) totalOut = d.totalPowerApparent;
const bool hasInjection = totalIn > 0;
if (hasInjection)
d.totalPowerInst = -roundTo50(totalIn);
else if (totalOut >= 0)
d.totalPowerInst = roundTo50(totalOut);
else
d.totalPowerInst = 0;
bool hasInstantPhasePower = false;
for (size_t i = 0; i < 3; ++i) {
d.phasePowerInst[i] = 0;
const int phaseOut = d.hasPowerOutPhase[i] ? d.phasePowerOut[i] : 0;
const int phaseIn = d.hasPowerInPhase[i] ? d.phasePowerIn[i] : 0;
if (hasInjection && phaseIn > 0) {
d.phasePowerInst[i] = -roundTo50(phaseIn);
hasInstantPhasePower = true;
} else if (!hasInjection && phaseOut > 0) {
d.phasePowerInst[i] = roundTo50(phaseOut);
hasInstantPhasePower = true;
}
}
if (!hasInstantPhasePower && d.totalPowerInst != 0) {
int sumCurrentAbs = 0;
int currentAbs[3] = {0, 0, 0};
for (size_t i = 0; i < 3; ++i) {
currentAbs[i] = abs(d.current[i]);
sumCurrentAbs += currentAbs[i];
}
if (sumCurrentAbs > 0) {
int assigned = 0;
for (size_t i = 0; i < 3; ++i) {
if (i < 2) {
d.phasePowerInst[i] = (d.totalPowerInst * currentAbs[i]) / sumCurrentAbs;
assigned += d.phasePowerInst[i];
} else {
d.phasePowerInst[i] = d.totalPowerInst - assigned;
}
}
}
}
for (size_t i = 0; i < 3; ++i) {
if (hasInjection) {
if (d.current[i] > 0) d.current[i] = -d.current[i];
} else {
if (d.current[i] < 0) d.current[i] = -d.current[i];
}
}
}
void TeleinfoReader::onNewFrame(ValueList* list) {
if (instance_) instance_->parseFrame(list);
}
void TeleinfoReader::onUpdatedFrame(ValueList* list) {
if (instance_) instance_->parseFrame(list);
}
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#pragma once
#include <LibTeleinfo.h>
#include <SoftwareSerial.h>
#include "TeleinfoData.h"
class TeleinfoReader {
public:
static constexpr uint32_t kModeSwitchTimeoutMs = 8000;
TeleinfoReader(uint8_t rxPin);
void begin();
void update();
const TeleinfoData& data() const { return data_; }
TeleinfoProtocol protocol() const { return protocol_; }
long baudrate() const { return kModes[modeIndex_].baudrate; }
const char* modeLabel() const { return kModes[modeIndex_].label; }
const char* protocolLabel() const;
bool autoBaud() const { return autoBaud_; }
private:
struct ModeConfig {
long baudrate;
_Mode_e mode;
const char* label;
};
static constexpr ModeConfig kModes[] = {
{9600, TINFO_MODE_STANDARD, "STD"},
{1200, TINFO_MODE_HISTORIQUE, "HIS"},
};
static constexpr size_t kModeCount = sizeof(kModes) / sizeof(kModes[0]);
static int roundTo50(int value);
static const char* findLabelValue(ValueList* root, const char* label);
static bool readLabelInt(ValueList* root, const char* label, int& out);
static bool readLabelInt64(ValueList* root, const char* label, int64_t& out);
void beginMode(size_t modeIndex);
void maybeSwitchMode();
void parseFrame(ValueList* list);
void recomputeDerived(TeleinfoData& d);
void updateProtocol(ValueList* list);
static void onNewFrame(ValueList* list);
static void onUpdatedFrame(ValueList* list);
uint8_t rxPin_;
bool autoBaud_ = true;
SoftwareSerial serial_;
TInfo tinfo_;
TeleinfoData data_;
TeleinfoProtocol protocol_ = TeleinfoProtocol::Unknown;
size_t modeIndex_ = 0;
uint32_t modeStartedMs_ = 0;
uint32_t lastValidFrameMs_ = 0;
static TeleinfoReader* instance_;
};
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#include "WifiManager.h"
#include <Arduino.h>
WifiManager::WifiManager(const char* ssid, const char* password)
: ssid_(ssid), password_(password) {}
void WifiManager::begin() {
WiFi.mode(WIFI_STA);
WiFi.persistent(false);
WiFi.setAutoReconnect(true);
connect();
}
void WifiManager::update() {
if (isConnected()) return;
const uint32_t now = millis();
if (now - lastAttemptMs_ < kReconnectIntervalMs) return;
connect();
}
void WifiManager::connect() {
lastAttemptMs_ = millis();
WiFi.begin(ssid_, password_);
}
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#pragma once
#include <ESP8266WiFi.h>
class WifiManager {
public:
WifiManager(const char* ssid, const char* password);
void begin();
void update();
bool isConnected() const { return WiFi.status() == WL_CONNECTED; }
IPAddress localIP() const { return WiFi.localIP(); }
int32_t rssi() const { return WiFi.RSSI(); }
private:
void connect();
const char* ssid_;
const char* password_;
uint32_t lastAttemptMs_ = 0;
static constexpr uint32_t kReconnectIntervalMs = 10000;
};
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#include <Arduino.h>
#include "Config.h"
#include "MqttPublisher.h"
#include "OledDisplay.h"
#include "TeleinfoReader.h"
#include "WifiManager.h"
namespace {
constexpr uint8_t PIN_SDA = D1;
constexpr uint8_t PIN_SCL = D2;
constexpr uint8_t PIN_TELEINFO_RX = D7;
OledDisplay oled(PIN_SDA, PIN_SCL);
TeleinfoReader teleinfo(PIN_TELEINFO_RX);
WifiManager wifi(WIFI_SSID, WIFI_PASSWORD);
MqttPublisher mqtt(MQTT_HOST, MQTT_PORT, MQTT_USER, MQTT_PASS,
MQTT_TOPIC_PREFIX, MQTT_PUBLISH_INTERVAL_MS);
} // namespace
void setup() {
Serial.begin(9600);
Serial.println(F("\n[Linky TRI] Boot"));
if (!oled.begin()) {
Serial.println(F("[OLED] FAIL"));
while (true) delay(1000);
}
oled.showInit();
teleinfo.begin();
Serial.println(F("[TIC] OK"));
wifi.begin();
Serial.println(F("[WiFi] Connecting..."));
mqtt.begin();
Serial.println(F("[MQTT] Ready"));
}
void loop() {
teleinfo.update();
wifi.update();
mqtt.update(wifi.isConnected(), teleinfo.data());
ConnStatus conn;
conn.wifiConnected = wifi.isConnected();
conn.mqttConnected = mqtt.isConnected();
conn.rssi = wifi.rssi();
conn.brokerIP = mqtt.brokerIP();
oled.update(teleinfo.data(), teleinfo.protocol(),
teleinfo.baudrate(), teleinfo.modeLabel(),
teleinfo.autoBaud(), conn);
}
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QT -= gui
QT += mqtt xml serialport serialbus
CONFIG += c++11 console
CONFIG -= app_bundle
# The following define makes your compiler emit warnings if you use
# any Qt feature that has been marked deprecated (the exact warnings
# depend on your compiler). Please consult the documentation of the
# deprecated API in order to know how to port your code away from it.
#DEFINES += QT_DEPRECATED_WARNINGS
# You can also make your code fail to compile if it uses deprecated APIs.
# In order to do so, uncomment the following line.
# You can also select to disable deprecated APIs only up to a certain version of Qt.
#DEFINES += QT_DISABLE_DEPRECATED_BEFORE=0x060000 # disables all the APIs deprecated before Qt 6.0.0
SOURCES += \
main.cpp \
compteur.cpp \
qem24energymeter.cpp
# Default rules for deployment.
target.path = /home/bas
INSTALLS += target
HEADERS += \
compteur.h \
qem24energymeter.h
#LIBS += "/opt/electronique/navis/sysroot/lib/aarch64-linux-gnu/libudev.so.1"
DISTFILES += \
teleinfoData.txt
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# Smoke Tests
## Objectif
Valider rapidement la compilabilité et la cohérence de configuration.
## Commandes recommandées
- `pio run`
- `cmake -S . -B build && cmake --build build` (si CMake est présent)
## Critères de réussite
- Build sans erreur bloquante.
- Configuration cible cohérente.